Some advantages steam-powered machinery had over water-powered machinery was quicker production processes, enhanced distribution, and allowed factories to be located away from water sources.
Pump machines work by using an internal pump to force water at a high pressure through the coffee grounds, whereas steam machines work by boiling water to produce steam, which is forced through the grounds. There are advantages and disadvantages to both types of extraction method.
A flow diagram of a steam condenser typically illustrates the process of condensing steam into water for reuse in a steam cycle. The diagram shows steam entering the condenser, where it comes into contact with cooling water, leading to heat exchange that cools the steam. As the steam condenses, it transforms into liquid water, which is then collected and often pumped back into the boiler. The cooling water, having absorbed the heat, is usually expelled or recycled back to a cooling system.
Mill machines primarily focus on processing raw materials, such as grinding grain or milling wood, often using mechanical power derived from water or wind. In contrast, steam engine machines generate power through the combustion of fuel to heat water, producing steam that drives pistons or turbines. While mill machines are typically designed for specific production tasks, steam engines serve as general power sources for various applications, including transportation and industrial machinery. Overall, the key difference lies in their function and the energy source they utilize.
If I understand what you are asking, you are describing a steam cycle system. First water is pressurized and pumped via a condensate pump (the water is called condensate. This condensate normally goes through a heater to increase efficiency, then is further pressurized by feed pumps. The water (now called Feed Water) is then sent through a control valve and into a steam generator (basically a large tea kettle). The control valve maintains constant water level in the generator within a certain range. The water in the generator is heated by various ways (Oil, Coal, Nuclear, Geothermal or even Solar reflectors). The steam produced is directed to do whatever work the system is designed to do, either heating, electricity generation, propulsion (steam locomotive / Steam powered ship). Once the steam has been used to produce work, it is at a lower temperature and pressure than it was in the generator. This low pressure steam can be directed to the condensate heater (as described above) then to a condenser, or straight to the condenser. The condenser uses various ways to further cool the steam; (water, cooling towers ;those big towers at nuclear power plants) and the resulting condensate is collected to be reused. The reason why it is called a closed loop system is that the water is re-used time and again in a loop. The water is only added to make up for leaks in the system (thus it is called make up water).
Water Vapour
Water-powered factories relied on flowing water to generate mechanical energy, typically using water wheels, which limited their locations to areas near rivers or waterfalls. In contrast, steam-powered factories utilized steam engines that could be fueled by coal, allowing them to be situated anywhere, regardless of water access. This flexibility in location contributed to the rapid industrialization of urban areas and enabled factories to operate continuously, unlike water-powered systems that depended on water availability. Additionally, steam power supported larger-scale production and more complex machinery than most water-powered systems could accommodate.
Steam-powered factories could be built in cities.
Steam-powered factories could be built in cities.
Steam-powered factories could be built in cities.
Steam-powered factories could be built in cities.
Water-powered factories relied on water wheels or turbines to harness the energy of flowing water, typically located near rivers or streams, which limited their geographical placement. In contrast, steam-powered factories used steam engines that could be situated anywhere, as they depended on coal or other fuels to generate steam, thus offering greater flexibility in location. Additionally, steam power allowed for greater control over machinery and the ability to run larger and more diverse operations compared to the more limited scope of water power. Overall, steam power marked a significant advancement in industrial capabilities and mobility.
A water-powered factory did not create pollution and could only operate near water, but a steam-powered factory did create pollution and could operate anywhere on land
Steam-powered factories could be built in cities.
Steam-powered factories could be built in cities.
Before steam engines came into use, travel on land was mostly powered by horse. On water, it was mostly powered by wind.
When water heats up to the point where it starts to boil, steam will descend from the water. So, water and high temperatures create steam. But, since other liquids also can create steam, I would say that if you boil a common liquid you will get steam.
Steam-powered factories could be built in cities.